Bioaerosol Emission Characteristics from Laboratory Burns

Combustion processes can aerosolize and transport particles both from nonbiological and biological origin, with the latter termed bioaerosol particle (BAP). Previous work has shown an increase in the level of BAP in smoke plumes. The mechanism of their emission, whether from combustion of biological material or coemission with dust and soil from fire-driven winds, has yet to be examined. We carried out a series of controlled combustion experiments to understand the role of vegetation type and combustion conditions in the direct emission of BAP. The fuels we used included broadleaf, evergreen, and grass. We measured the emitted fluorescent BAP using a wideband integrated bioaerosol system (WIBS), and we measured the viability of filter-collected BAP using flow cytometry. Our measurements showed that the size and absolute concentration of the fluorescent BAP, and the viability of the BAP emitted during combustion, depend on the combustion conditions. In addition, the type of fuel impacted the type of emitted fluorescent BAP fraction relative to the total concentration of the emitted aerosol.

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Publication Details

Journal
ACS ES&T Air
Published
2025-04-25
DOI
https://doi.org/10.1021/acsestair.4c00310
Citations
1
Primary Topic
Fire effects on ecosystems
Type
article
Field-Weighted Citation Impact
1.11

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article

Bioaerosol Emission Characteristics from Laboratory Burns

Katherine Benedict, Alejandro Gutierrez, Abu Sayeed Shawon
1 citations
ACS ES&T Air
Fire effects on ecosystems
1.11
article

Bioaerosol Emission Characteristics from Laboratory Burns

Katherine Benedict, Alejandro Gutierrez, Abu Sayeed Shawon
article en
1 citations

Abstract

Combustion processes can aerosolize and transport particles both from nonbiological and biological origin, with the latter termed bioaerosol particle (BAP). Previous work has shown an increase in the level of BAP in smoke plumes. The mechanism of their emission, whether from combustion of biological material or coemission with dust and soil from fire-driven winds, has yet to be examined. We carried out a series of controlled combustion experiments to understand the role of vegetation type and combustion conditions in the direct emission of BAP. The fuels we used included broadleaf, evergreen, and grass. We measured the emitted fluorescent BAP using a wideband integrated bioaerosol system (WIBS), and we measured the viability of filter-collected BAP using flow cytometry. Our measurements showed that the size and absolute concentration of the fluorescent BAP, and the viability of the BAP emitted during combustion, depend on the combustion conditions. In addition, the type of fuel impacted the type of emitted fluorescent BAP fraction relative to the total concentration of the emitted aerosol.

ACS ES&T AirVol. 2(5)
Los Alamos National Laboratory (US), Bioscience Research (US), Environmental Earth Sciences (AU)
U.S. Department of Energy, Laboratory Directed Research and Development
Openalex Percentile: Top 25%
Fire effects on ecosystems
1.11
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Bioaerosol Emission Characteristics from Laboratory Burns — Katherine Benedict, Alejandro Gutierrez, et al. · ACS ES&T Air (2025) | TGRS Research Map | TGRS